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148 results about "Large droplet" patented technology

Mixed hydrophilic/hydrophobic fiber media for liquid-liquid coalescence

An immiscible lipophilic or hydrophilic liquid phase separated respectively from a continuous hydrophilic phase or a lipophilic phase liquid. Fibers having hydrophilic and hydrophobic properties are mixed, layered, etc., and formed into a filter. The separation mechanism involves capture of small droplets of the immiscible phase, coalescence of the small droplets into larger droplets as the immiscible liquid flows through the fiber filter, and release of the large immiscible droplets from the filter. With respect to separation of a hydrophilic immiscible fluid such as water in a lipophilic continuous fluid such as oil, the hydrophobic fibers will cause small water droplets to migrate towards the hydrophilic fibers whereby large droplets are formed on hydrophilic surface. The large droplets stay on hydrophilic fiber surface for extended periods of time and continue to coalescence until they are so large that they can no longer be maintained by the hydrophilic fibers and are released and drained off of the filter. In designing such filter, wettability of the filter media is an important parameter. The filter media can be designed by mixing hydrophilic and hydrophobic fibers in various proportions to achieve an optimum wettability range for separation of the immiscible liquid from the continuous phase liquid. The wettability of filter media can be characterized by a modified Washburn Equation.
Owner:THE UNIVERSITY OF AKRON

Device for testing soft-melting and dropping characteristics of ferruginous burden of blast furnace and method

The invention relates to a device for testing soft-melting and dropping characteristics of ferruginous burden of a blast furnace and a method. The device comprises a melting and dropping furnace, a heating device, a graphite pressure lever, a thermocouple, a sampling box, reductive gas and an automatic control device and is characterized by further comprising a supporting framework, a lifting mechanism, a load, a displacement sensor and a gas supplying system. The graphite pressure lever is a piston type graphite pressure lever, one end of the load is fixedly connected with the piston type graphite pressure lever, the other end of the load is fixedly connected with a hoisting steel wire rope, and a lifting motor of the lifting mechanism, the gas supplying system and the heating device areall electrically connected with the automatic control device. The device and the method have the advantages that through carrying out testing by a 2kg-grade large-sized melting and dropping furnace and assisting the melting and dropping furnace with the heated reductive gas, the soft-melting and dropping characteristics of iron ore can be more accurately tested, and a reference foundation is provided for actual raw material regulation, technical research and the like of blast furnace production. The accuracy and reliability of test results can be greatly improved.
Owner:UNIV OF SCI & TECH LIAONING

Computing method of model parameters in icing wind tunnel experiment under supercooled large droplet condition

InactiveCN104268399AMeet the similarity requirementsSpecial data processing applicationsJet aeroplaneScale model
The invention discloses a computing method of model parameters in an icing wind tunnel experiment under a supercooled large droplet condition and aims at solving the problems that an existing parameter selecting method for a supercooled small droplet icing experiment does not function well if being applied to a supercooled large droplet icing experiment and that the real icing condition cannot be reflected by icing on a scale model of the airplane. The computing method of the model parameters in the icing wind tunnel experiment under the supercooled large droplet condition is capable of orderly giving the experimental parameters of a wind tunnel test section such as air velocity, average droplet grain diameter, air pressure, liquid water content, icing time and low supercooled water temperature corresponding to real icing flying conditions by use of a theoretical derivation and numerical computation method after determining the scale relation of the model and the real airplane. An aircraft icing wind tunnel experiment is performed according to the converted test parameters, and the experimental result and the real result are capable of meeting the similarity requirement on the major characteristics of the icing process. As a result, the computing method of the model parameters in the icing wind tunnel experiment under the supercooled large droplet condition is capable of obtaining the model parameters for the icing wind tunnel experiment; the corresponding parameters are capable of reflecting the real icing condition in the icing wind tunnel experiment.
Owner:AERODYNAMICS NAT KEY LAB

Mixed hydrophilic/hydrophobic fiber media for liquid-liquid coalescence

An immiscible lipophilic or hydrophilic liquid phase separated respectively from a continuous hydrophilic phase or a lipophilic phase liquid. Fibers having hydrophilic and hydrophobic properties are mixed, layered, etc., and formed into a filter. The separation mechanism involves capture of small droplets of the immiscible phase, coalescence of the small droplets into larger droplets as the immiscible liquid flows through the fiber filter, and release of the large immiscible droplets from the filter. With respect to separation of a hydrophilic immiscible fluid such as water in a lipophilic continuous fluid such as oil, the hydrophobic fibers will cause small water droplets to migrate towards the hydrophilic fibers whereby large droplets are formed on hydrophilic surface. The large droplets stay on hydrophilic fiber surface for extended periods of time and continue to coalescence until they are so large that they can no longer be maintained by the hydrophilic fibers and are released and drained off of the filter. In designing such filter, wettability of the filter media is an important parameter. The filter media can be designed by mixing hydrophilic and hydrophobic fibers in various proportions to achieve an optimum wettability range for separation of the immiscible liquid from the continuous phase liquid. The wettability of filter media can be characterized by a modified Washburn Equation.
Owner:THE UNIVERSITY OF AKRON
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